Nano-Engineering at Functional Interfaces for Multidisciplinary Applications: Electrochemistry, Photoplasmonics, Antimicrobials, and Anticancer ApplicationsSai Sathish Ramamurthy, Seemesh Bhaskar, Narendra Reddy Nano-Engineering at Functional Interfaces for Multi-disciplinary Applications: Electrochemistry, Photoplasmonics, Antimicrobials, and Anticancer Applications provides a comprehensive overview of the fundamentals and latest advances of nano-engineering strategies for the design, development, and fabrication of novel nanostructures for different applications in the fields of photoplasmonics and electrochemistry, as well as antibacterial and anticancer research areas. The book begins with an introduction to the fundamentals and characteristics of nanostructured interfaces and their associated technologies, including an overview of their potential applications in different fields.The following chapters present a thorough discussion of the synthesis, processing, and characterization methods of nanomaterials with unique functionalities suitable for energy harvesting, food and textile applications, electrocatalysis, biomedical applications and more. It then concludes outlining research future directions and potential industrial applications. - Presents the advantages and impact of nano-engineering in technological advances, with up-to-date discussions on their applications - Covers research directions and potential future applications of nano-engineering in industry - Includes case studies that illustrate important processes |
Contents
| 1 | |
| 19 | |
| 47 | |
4 Nanoengineering for gapenhanced Raman tags and related plasmonic applications | 75 |
insights from functional metaldielectricmetal interfaces | 93 |
6 Nanoengineering at functional photonic crystal interfaces | 123 |
7 Nanoengineering metasurfaces for myriad photonic applications | 157 |
8 Nanoengineering lightemitting materials for sensing applications | 187 |
14 Nanoengineering of materials for the chemiresistive sensing of volatile organic compounds | 339 |
impact on device perfor | 371 |
16 Nanoengineering for antimicrobial applications | 399 |
17 Green nanomaterials for antimicrobial and anticancer applications | 425 |
18 Engineering advanced functional nanomaterials for virus detection | 445 |
19 Nanoscale engineering for biomedical applications | 473 |
20 Nanoengineering approaches for food analysis and related biosensing applications | 491 |
21 Nanofunctional finishes for textile applications | 511 |
9 Nanoengineering of functional metasurfaces by templateassisted selfassembly | 209 |
a flexible nanoengineering approach towards plasmonics anticancer and sensing applications | 231 |
11 Nanoengineering at functional interfaces in electrocatalysts and fieldinduced electrocatalyst | 263 |
12 Nanoengineering lowdimensional materials for energy harvesting | 283 |
13 Nanoengineering strategies for highperformance batteries and capacitors | 311 |
22 Nanoengineering via green technology for translational research | 541 |
technological advances and novel applications of nanostructures | 581 |
| 601 | |
Back Cover | 620 |
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Common terms and phrases
Advanced anode antibacterial anticancer antimicrobial applications aptamers AuNPs Available from https://doi.org batteries beam Bhaskar biomedical biosensing biosensors cancer carbon carbon nanotubes Chemical Chemistry Chen chitosan coating colloidal detection devices dielectric effect efficiency electrical electrochemical electrolyte electron emission energy harvesting engineering enhanced fabrics Fano resonance field fluorescence functional gas sensors GERTs graphene Huang hybrid imaging interaction interface Journal laser layer light LSPR magnetic mechanical metasurface microfluidic modes molecules Nano nanoengineering nanomaterials nanomedicine nanoparticles nanoscale nanostructures nanotechnology optical oxygen particles perovskite perovskite solar cells phage phage display photonic crystal Physics piezoelectric platform polarization polymer potential properties protein quantum dots Ramamurthy Raman refractive index Reproduced with permission Schematic Science sensing sensitivity shown in Fig silver nanoparticles solar cells SPCE structure substrate surface plasmon resonance synthesis target techniques technologies thin films TiO2 utilized virus Wang wavelength Zhang Zhao


